bool readImage(SImage& image, MemChunk& data, int index)
{
// Get info
SImage::info_t info = getInfo(data, index);
// Create image from data
image.create(info.width, info.height, PALMASK);
data.read(imageData(image), info.width*info.height, 0);
image.fillAlpha(255);
return true;
}
KoClipPath *PictureShape::generateClipPath()
{
QPainterPath path = _Private::generateOutline(imageData()->image());
path = path * QTransform().scale(size().width(), size().height());
KoPathShape *pathShape = KoPathShape::createShapeFromPainterPath(path);
//createShapeFromPainterPath converts the path topleft into a shape topleft
//and the pathShape needs to be on top of us. So to preserve both we do:
pathShape->setTransformation(pathShape->transformation() * transformation());
return new KoClipPath(this, new KoClipData(pathShape));
}
static void dumpBitmap(CGContextRef bitmapContext, const char* checksum)
{
RetainPtr<CGImageRef> image(AdoptCF, CGBitmapContextCreateImage(bitmapContext));
RetainPtr<CFMutableDataRef> imageData(AdoptCF, CFDataCreateMutable(0, 0));
RetainPtr<CGImageDestinationRef> imageDest(AdoptCF, CGImageDestinationCreateWithData(imageData.get(), kUTTypePNG, 1, 0));
CGImageDestinationAddImage(imageDest.get(), image.get(), 0);
CGImageDestinationFinalize(imageDest.get());
const unsigned char* data = CFDataGetBytePtr(imageData.get());
const size_t dataLength = CFDataGetLength(imageData.get());
printPNG(data, dataLength, checksum);
}
void FEComposite::apply(Filter* filter)
{
m_in->apply(filter);
m_in2->apply(filter);
if (!m_in->resultImage() || !m_in2->resultImage())
return;
GraphicsContext* filterContext = getEffectContext();
if (!filterContext)
return;
FloatRect srcRect = FloatRect(0.f, 0.f, -1.f, -1.f);
switch (m_type) {
case FECOMPOSITE_OPERATOR_OVER:
filterContext->drawImageBuffer(m_in2->resultImage(), DeviceColorSpace, calculateDrawingRect(m_in2->scaledSubRegion()));
filterContext->drawImageBuffer(m_in->resultImage(), DeviceColorSpace, calculateDrawingRect(m_in->scaledSubRegion()));
break;
case FECOMPOSITE_OPERATOR_IN:
filterContext->save();
filterContext->clipToImageBuffer(m_in2->resultImage(), calculateDrawingRect(m_in2->scaledSubRegion()));
filterContext->drawImageBuffer(m_in->resultImage(), DeviceColorSpace, calculateDrawingRect(m_in->scaledSubRegion()));
filterContext->restore();
break;
case FECOMPOSITE_OPERATOR_OUT:
filterContext->drawImageBuffer(m_in->resultImage(), DeviceColorSpace, calculateDrawingRect(m_in->scaledSubRegion()));
filterContext->drawImageBuffer(m_in2->resultImage(), DeviceColorSpace, calculateDrawingRect(m_in2->scaledSubRegion()), srcRect, CompositeDestinationOut);
break;
case FECOMPOSITE_OPERATOR_ATOP:
filterContext->drawImageBuffer(m_in2->resultImage(), DeviceColorSpace, calculateDrawingRect(m_in2->scaledSubRegion()));
filterContext->drawImageBuffer(m_in->resultImage(), DeviceColorSpace, calculateDrawingRect(m_in->scaledSubRegion()), srcRect, CompositeSourceAtop);
break;
case FECOMPOSITE_OPERATOR_XOR:
filterContext->drawImageBuffer(m_in2->resultImage(), DeviceColorSpace, calculateDrawingRect(m_in2->scaledSubRegion()));
filterContext->drawImageBuffer(m_in->resultImage(), DeviceColorSpace, calculateDrawingRect(m_in->scaledSubRegion()), srcRect, CompositeXOR);
break;
case FECOMPOSITE_OPERATOR_ARITHMETIC: {
IntRect effectADrawingRect = calculateDrawingIntRect(m_in->scaledSubRegion());
RefPtr<CanvasPixelArray> srcPixelArrayA(m_in->resultImage()->getPremultipliedImageData(effectADrawingRect)->data());
IntRect effectBDrawingRect = calculateDrawingIntRect(m_in2->scaledSubRegion());
RefPtr<ImageData> imageData(m_in2->resultImage()->getPremultipliedImageData(effectBDrawingRect));
CanvasPixelArray* srcPixelArrayB(imageData->data());
arithmetic(srcPixelArrayA, srcPixelArrayB, m_k1, m_k2, m_k3, m_k4);
resultImage()->putPremultipliedImageData(imageData.get(), IntRect(IntPoint(), resultImage()->size()), IntPoint());
}
break;
default:
break;
}
}
bool writeImage(SImage& image, MemChunk& data, Palette* pal, int index)
{
// Can't write if RGBA
if (image.getType() == RGBA)
return false;
// Check size
if (!validSize(image.getWidth(), image.getHeight()))
return false;
// Just dump image data to memchunk
data.clear();
data.write(imageData(image), image.getWidth() * image.getHeight());
return true;
}
bool ImageDataObject::checkIfStructureChanged()
{
const auto superclassResult = CoordinateTransformableDataObject::checkIfStructureChanged();
decltype(m_extent) newExtent;
imageData().GetExtent(newExtent.data());
bool changed = newExtent != m_extent;
if (changed)
{
m_extent = newExtent;
}
return superclassResult || changed;
}
bb::ImageData PictureHelper::fromQImage(const QImage &qImage)
{
bb::ImageData imageData(bb::PixelFormat::RGBA_Premultiplied, qImage.width(), qImage.height());
unsigned char *dstLine = imageData.pixels();
for (int y = 0; y < imageData.height(); y++) {
unsigned char * dst = dstLine;
for (int x = 0; x < imageData.width(); x++) {
QRgb srcPixel = qImage.pixel(x, y);
*dst++ = qRed(srcPixel);
*dst++ = qGreen(srcPixel);
*dst++ = qBlue(srcPixel);
*dst++ = qAlpha(srcPixel);
}
dstLine += imageData.bytesPerLine();
}
return imageData;
}
void ScreenManager::postImage()
{
emit signal_printToLog("Buffer reading");
buffer.open(QIODevice::ReadOnly);
QByteArray base64image(buffer.readAll().toBase64());
buffer.close();
emit signal_printToLog(QString("Buffer read: %1").arg(base64image.size()));
emit signal_printToLog("Forming request");
QByteArray imageData("image=");
imageData.append(base64image);
imageData.replace("/", "%2F");
imageData.replace("+", "%2B");
headers.append("POST /upload HTTP/1.1\r\n");
headers.append("Content-Type: application/x-www-form-urlencoded\r\n");
headers.append("Content-Length: ");
headers.append(QString::number(imageData.size()).toAscii());
headers.append("\r\n");
headers.append("Connection: close\r\n");
headers.append("Accept-Encoding: identity\r\n");
headers.append("Host: cropme.ru\r\n\r\n");
emit signal_printToLog("Request formed, sending");
if(socket.isWritable())
{
socket.write(headers);
socket.write(imageData);
socket.flush();
emit signal_printToLog("All sent");
}
else
{
QMessageBox::warning(0, tr("Error"), tr("unwritable socket"));
}
}
String ImageBuffer::toDataURL(const String& mimeType) const
{
ASSERT(MIMETypeRegistry::isSupportedImageMIMETypeForEncoding(mimeType));
RetainPtr<CGImageRef> image(AdoptCF, CGBitmapContextCreateImage(context()->platformContext()));
if (!image)
return "data:,";
size_t width = CGImageGetWidth(image.get());
size_t height = CGImageGetHeight(image.get());
OwnArrayPtr<uint32_t> imageData(new uint32_t[width * height]);
if (!imageData)
return "data:,";
RetainPtr<CGImageRef> transformedImage(AdoptCF, CGBitmapContextCreateImage(context()->platformContext()));
if (!transformedImage)
return "data:,";
RetainPtr<CFMutableDataRef> transformedImageData(AdoptCF, CFDataCreateMutable(kCFAllocatorDefault, 0));
if (!transformedImageData)
return "data:,";
RetainPtr<CGImageDestinationRef> imageDestination(AdoptCF, CGImageDestinationCreateWithData(transformedImageData.get(),
utiFromMIMEType(mimeType).get(), 1, 0));
if (!imageDestination)
return "data:,";
CGImageDestinationAddImage(imageDestination.get(), transformedImage.get(), 0);
CGImageDestinationFinalize(imageDestination.get());
Vector<char> in;
in.append(CFDataGetBytePtr(transformedImageData.get()), CFDataGetLength(transformedImageData.get()));
Vector<char> out;
base64Encode(in, out);
out.append('\0');
return String::format("data:%s;base64,%s", mimeType.utf8().data(), out.data());
}
void CoverWidget::dropEvent(QDropEvent *e) {
auto mimeData = e->mimeData();
QImage img;
if (mimeData->hasImage()) {
img = qvariant_cast<QImage>(mimeData->imageData());
} else {
const auto &urls = mimeData->urls();
if (urls.size() == 1) {
auto &url = urls.at(0);
if (url.isLocalFile()) {
img = App::readImage(psConvertFileUrl(url));
}
}
}
if (!_dropArea->hiding()) {
_dropArea->hideAnimated(func(this, &CoverWidget::dropAreaHidden));
}
e->acceptProposedAction();
showSetPhotoBox(img);
}
std::vector<float> Image::getRawPixelData()
{
if (samplingScheme.stepSize.width == 1 && samplingScheme.stepSize.height == 1)
{
return getRawPixelDataSimulated();
}
else // easy non AVX implementation
{
std::vector<float> imageData(imageSize.width*imageSize.height * 4);
size_t offset = 0;
PixelData32 pixel;
for (uint y = 0; y < imageSize.height; y++)
{
for (uint x = 0; x < imageSize.width; x++)
{
getPixel(pixel, x, y);
memcpy(imageData.data() + offset, &pixel, sizeof(PixelData32));
offset += sizeof(PixelData32) / sizeof(float);
}
}
return imageData;
}
}
std::vector<float> Image::getRawPixelDataSimulated()
{
std::vector<float> imageData(simulatedSize.width*simulatedSize.height * 4);
if (simulatedSize == channelSizes[0] && simulatedSize == channelSizes[1] && simulatedSize == channelSizes[2]) {
transposeFloatAVX_reverse(channels->red(), channels->green(), channels->blue(), &imageData[0], simulatedSize.width*simulatedSize.height);
}
else // easy non AVX implementation
{
size_t offset = 0;
PixelData32 pixel;
for (uint y = 0; y < simulatedSize.height; y++)
{
for (uint x = 0; x < simulatedSize.width; x++)
{
getPixel(pixel, x, y);
memcpy(imageData.data() + offset, &pixel, sizeof(PixelData32));
offset += sizeof(PixelData32) / sizeof(float);
}
}
}
return imageData;
}
PassOwnPtr<Vector<char>> PictureSnapshot::replay(unsigned fromStep, unsigned toStep, double scale) const
{
const SkIRect bounds = m_picture->cullRect().roundOut();
// TODO(fmalita): convert this to SkSurface/SkImage, drop the intermediate SkBitmap.
SkBitmap bitmap;
bitmap.allocPixels(SkImageInfo::MakeN32Premul(bounds.width(), bounds.height()));
bitmap.eraseARGB(0, 0, 0, 0);
{
ReplayingCanvas canvas(bitmap, fromStep, toStep);
// Disable LCD text preemptively, because the picture opacity is unknown.
// The canonical API involves SkSurface props, but since we're not SkSurface-based
// at this point (see TODO above) we (ab)use saveLayer for this purpose.
SkAutoCanvasRestore autoRestore(&canvas, false);
canvas.saveLayer(nullptr, nullptr);
canvas.scale(scale, scale);
canvas.resetStepCount();
m_picture->playback(&canvas, &canvas);
}
OwnPtr<Vector<char>> base64Data = adoptPtr(new Vector<char>());
Vector<char> encodedImage;
RefPtr<SkImage> image = adoptRef(SkImage::NewFromBitmap(bitmap));
if (!image)
return nullptr;
ImagePixelLocker pixelLocker(image, kUnpremul_SkAlphaType, kRGBA_8888_SkColorType);
ImageDataBuffer imageData(IntSize(image->width(), image->height()),
static_cast<const unsigned char*>(pixelLocker.pixels()));
if (!PNGImageEncoder::encode(imageData, reinterpret_cast<Vector<unsigned char>*>(&encodedImage)))
return nullptr;
base64Encode(encodedImage, *base64Data);
return base64Data.release();
}
void PictureShape::paint(QPainter &painter, const KoViewConverter &converter,
KoShapePaintingContext &paintContext)
{
Q_UNUSED(paintContext);
QRectF viewRect = converter.documentToView(QRectF(QPointF(0,0), size()));
if (imageData() == 0) {
painter.fillRect(viewRect, QColor(Qt::gray));
return;
}
painter.save();
applyConversion(painter, converter);
paintBorder(painter, converter);
painter.restore();
QSize pixmapSize = calcOptimalPixmapSize(viewRect.size(), imageData()->image().size());
// Normalize the clipping rect if it isn't already done.
m_clippingRect.normalize(imageData()->imageSize());
// Handle style:mirror, i.e. mirroring horizontally and/or vertically.
//
// NOTE: At this time we don't handle HorizontalOnEven
// and HorizontalOnOdd, which have to know which
// page they are on. In those cases we treat it as
// no horizontal mirroring at all.
bool doFlip = false;
QSizeF shapeSize = size();
QSizeF viewSize = converter.documentToView(shapeSize);
qreal midpointX = 0.0;
qreal midpointY = 0.0;
qreal scaleX = 1.0;
qreal scaleY = 1.0;
if (m_mirrorMode & MirrorHorizontal) {
midpointX = viewSize.width() / qreal(2.0);
scaleX = -1.0;
doFlip = true;
}
if (m_mirrorMode & MirrorVertical) {
midpointY = viewSize.height() / qreal(2.0);
scaleY = -1.0;
doFlip = true;
}
if (doFlip) {
QTransform outputTransform = painter.transform();
QTransform worldTransform = QTransform();
//kDebug(31000) << "Flipping" << midpointX << midpointY << scaleX << scaleY;
worldTransform.translate(midpointX, midpointY);
worldTransform.scale(scaleX, scaleY);
worldTransform.translate(-midpointX, -midpointY);
//kDebug(31000) << "After flipping for window" << worldTransform;
QTransform newTransform = worldTransform * outputTransform;
painter.setWorldTransform(newTransform);
}
// Paint the image as prepared in waitUntilReady()
if (!m_printQualityImage.isNull() && pixmapSize != m_printQualityRequestedSize) {
QSizeF imageSize = m_printQualityImage.size();
QRectF cropRect(
imageSize.width() * m_clippingRect.left,
imageSize.height() * m_clippingRect.top,
imageSize.width() * m_clippingRect.width(),
imageSize.height() * m_clippingRect.height()
);
painter.drawImage(viewRect, m_printQualityImage, cropRect);
m_printQualityImage = QImage(); // free memory
}
else {
QPixmap pixmap;
QString key(generate_key(imageData()->key(), pixmapSize));
// If the required pixmap is not in the cache
// launch a task in a background thread that scales
// the source image to the required size
if (!QPixmapCache::find(key, &pixmap)) {
QThreadPool::globalInstance()->start(new _Private::PixmapScaler(this, pixmapSize));
painter.fillRect(viewRect, QColor(Qt::gray)); // just paint a gray rect as long as we don't have the required pixmap
}
else {
QRectF cropRect(
pixmapSize.width() * m_clippingRect.left,
pixmapSize.height() * m_clippingRect.top,
pixmapSize.width() * m_clippingRect.width(),
pixmapSize.height() * m_clippingRect.height()
);
painter.drawPixmap(viewRect, pixmap, cropRect);
}
}
}
bool PGFLoader::load(const QString& filePath, DImgLoaderObserver* const observer)
{
m_observer = observer;
readMetadata(filePath, DImg::PGF);
FILE* file = fopen(QFile::encodeName(filePath).constData(), "rb");
if (!file)
{
qCWarning(DIGIKAM_DIMG_LOG_PGF) << "Error: Could not open source file.";
loadingFailed();
return false;
}
unsigned char header[3];
if (fread(&header, 3, 1, file) != 1)
{
fclose(file);
loadingFailed();
return false;
}
unsigned char pgfID[3] = { 0x50, 0x47, 0x46 };
if (memcmp(&header[0], &pgfID, 3) != 0)
{
// not a PGF file
fclose(file);
loadingFailed();
return false;
}
fclose(file);
// -------------------------------------------------------------------
// Initialize PGF API.
#ifdef WIN32
#ifdef UNICODE
HANDLE fd = CreateFile((LPCWSTR)(QFile::encodeName(filePath).constData()), GENERIC_READ, 0, 0, OPEN_EXISTING, 0, 0);
#else
HANDLE fd = CreateFile(QFile::encodeName(filePath).constData(), GENERIC_READ, 0, 0, OPEN_EXISTING, 0, 0);
#endif
if (fd == INVALID_HANDLE_VALUE)
{
loadingFailed();
return false;
}
#else
int fd = open(QFile::encodeName(filePath).constData(), O_RDONLY);
if (fd == -1)
{
loadingFailed();
return false;
}
#endif
CPGFFileStream stream(fd);
CPGFImage pgf;
int colorModel = DImg::COLORMODELUNKNOWN;
try
{
// open pgf image
pgf.Open(&stream);
switch (pgf.Mode())
{
case ImageModeRGBColor:
case ImageModeRGB48:
m_hasAlpha = false;
colorModel = DImg::RGB;
break;
case ImageModeRGBA:
m_hasAlpha = true;
colorModel = DImg::RGB;
break;
default:
qCWarning(DIGIKAM_DIMG_LOG_PGF) << "Cannot load PGF image: color mode not supported (" << pgf.Mode() << ")";
loadingFailed();
return false;
break;
}
switch (pgf.Channels())
{
case 3:
case 4:
break;
default:
qCWarning(DIGIKAM_DIMG_LOG_PGF) << "Cannot load PGF image: color channels number not supported (" << pgf.Channels() << ")";
loadingFailed();
return false;
break;
}
int bitDepth = pgf.BPP();
switch (bitDepth)
{
case 24: // RGB 8 bits.
case 32: // RGBA 8 bits.
m_sixteenBit = false;
break;
case 48: // RGB 16 bits.
case 64: // RGBA 16 bits.
m_sixteenBit = true;
break;
default:
qCWarning(DIGIKAM_DIMG_LOG_PGF) << "Cannot load PGF image: color bits depth not supported (" << bitDepth << ")";
loadingFailed();
return false;
break;
}
if(DIGIKAM_DIMG_LOG_PGF().isDebugEnabled()) {
const PGFHeader* header = pgf.GetHeader();
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "PGF width = " << header->width;
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "PGF height = " << header->height;
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "PGF bbp = " << header->bpp;
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "PGF channels = " << header->channels;
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "PGF quality = " << header->quality;
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "PGF mode = " << header->mode;
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "Has Alpha = " << m_hasAlpha;
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "Is 16 bits = " << m_sixteenBit;
}
// NOTE: see bug #273765 : Loading PGF thumbs with OpenMP support through a separated thread do not work properlly with libppgf 6.11.24
pgf.ConfigureDecoder(false);
int width = pgf.Width();
int height = pgf.Height();
uchar* data = 0;
QSize originalSize(width, height);
if (m_loadFlags & LoadImageData)
{
// -------------------------------------------------------------------
// Find out if we do the fast-track loading with reduced size. PGF specific.
int level = 0;
QVariant attribute = imageGetAttribute(QLatin1String("scaledLoadingSize"));
if (attribute.isValid() && pgf.Levels() > 0)
{
int scaledLoadingSize = attribute.toInt();
int i, w, h;
for (i = pgf.Levels() - 1 ; i >= 0 ; --i)
{
w = pgf.Width(i);
h = pgf.Height(i);
if (qMin(w, h) >= scaledLoadingSize)
{
break;
}
}
if (i >= 0)
{
width = w;
height = h;
level = i;
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "Loading PGF scaled version at level " << i
<< " (" << w << " x " << h << ") for size "
<< scaledLoadingSize;
}
}
if (m_sixteenBit)
{
data = new_failureTolerant(width, height, 8); // 16 bits/color/pixel
}
else
{
data = new_failureTolerant(width, height, 4); // 8 bits/color/pixel
}
// Fill all with 255 including alpha channel.
memset(data, 0xFF, width * height * (m_sixteenBit ? 8 : 4));
pgf.Read(level, CallbackForLibPGF, this);
pgf.GetBitmap(m_sixteenBit ? width * 8 : width * 4,
(UINT8*)data,
m_sixteenBit ? 64 : 32,
NULL,
CallbackForLibPGF, this);
if (observer)
{
observer->progressInfo(m_image, 1.0);
}
}
// -------------------------------------------------------------------
// Get ICC color profile.
if (m_loadFlags & LoadICCData)
{
// TODO: Implement proper storage in PGF for color profiles
checkExifWorkingColorSpace();
}
imageWidth() = width;
imageHeight() = height;
imageData() = data;
imageSetAttribute(QLatin1String("format"), QLatin1String("PGF"));
imageSetAttribute(QLatin1String("originalColorModel"), colorModel);
imageSetAttribute(QLatin1String("originalBitDepth"), bitDepth);
imageSetAttribute(QLatin1String("originalSize"), originalSize);
#ifdef WIN32
CloseHandle(fd);
#else
close(fd);
#endif
return true;
}
catch (IOException& e)
{
int err = e.error;
if (err >= AppError)
{
err -= AppError;
}
qCWarning(DIGIKAM_DIMG_LOG_PGF) << "Error: Opening and reading PGF image failed (" << err << ")!";
#ifdef WIN32
CloseHandle(fd);
#else
close(fd);
#endif
loadingFailed();
return false;
}
catch (std::bad_alloc& e)
{
qCWarning(DIGIKAM_DIMG_LOG_PGF) << "Failed to allocate memory for loading" << filePath << e.what();
#ifdef WIN32
CloseHandle(fd);
#else
close(fd);
#endif
loadingFailed();
return false;
}
return true;
}
bool PGFLoader::save(const QString& filePath, DImgLoaderObserver* const observer)
{
m_observer = observer;
#ifdef WIN32
#ifdef UNICODE
HANDLE fd = CreateFile((LPCWSTR)(QFile::encodeName(filePath).constData()), GENERIC_READ, 0, 0, OPEN_EXISTING, 0, 0);
#else
HANDLE fd = CreateFile(QFile::encodeName(filePath).constData(), GENERIC_READ, 0, 0, OPEN_EXISTING, 0, 0);
#endif
if (fd == INVALID_HANDLE_VALUE)
{
qCWarning(DIGIKAM_DIMG_LOG_PGF) << "Error: Could not open destination file.";
return false;
}
#elif defined(__POSIX__)
int fd = open(QFile::encodeName(filePath).constData(), O_RDWR | O_CREAT | O_TRUNC, S_IRUSR | S_IWUSR | S_IRGRP | S_IROTH);
if (fd == -1)
{
qCWarning(DIGIKAM_DIMG_LOG_PGF) << "Error: Could not open destination file.";
return false;
}
#endif
try
{
QVariant qualityAttr = imageGetAttribute(QLatin1String("quality"));
int quality = qualityAttr.isValid() ? qualityAttr.toInt() : 3;
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "PGF quality: " << quality;
CPGFFileStream stream(fd);
CPGFImage pgf;
PGFHeader header;
header.width = imageWidth();
header.height = imageHeight();
header.quality = quality;
if (imageHasAlpha())
{
if (imageSixteenBit())
{
// NOTE : there is no PGF color mode in 16 bits with alpha.
header.channels = 3;
header.bpp = 48;
header.mode = ImageModeRGB48;
}
else
{
header.channels = 4;
header.bpp = 32;
header.mode = ImageModeRGBA;
}
}
else
{
if (imageSixteenBit())
{
header.channels = 3;
header.bpp = 48;
header.mode = ImageModeRGB48;
}
else
{
header.channels = 3;
header.bpp = 24;
header.mode = ImageModeRGBColor;
}
}
#ifdef PGFCodecVersionID
# if PGFCodecVersionID < 0x061142
header.background.rgbtBlue = 0;
header.background.rgbtGreen = 0;
header.background.rgbtRed = 0;
# endif
#endif
pgf.SetHeader(header);
// NOTE: see bug #273765 : Loading PGF thumbs with OpenMP support through a separated thread do not work properlly with libppgf 6.11.24
pgf.ConfigureEncoder(false);
pgf.ImportBitmap(4 * imageWidth() * (imageSixteenBit() ? 2 : 1),
(UINT8*)imageData(),
imageBitsDepth() * 4,
NULL,
CallbackForLibPGF, this);
UINT32 nWrittenBytes = 0;
#ifdef PGFCodecVersionID
# if PGFCodecVersionID >= 0x061124
pgf.Write(&stream, &nWrittenBytes, CallbackForLibPGF, this);
# endif
#else
pgf.Write(&stream, 0, CallbackForLibPGF, &nWrittenBytes, this);
#endif
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "PGF width = " << header.width;
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "PGF height = " << header.height;
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "PGF bbp = " << header.bpp;
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "PGF channels = " << header.channels;
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "PGF quality = " << header.quality;
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "PGF mode = " << header.mode;
qCDebug(DIGIKAM_DIMG_LOG_PGF) << "Bytes Written = " << nWrittenBytes;
#ifdef WIN32
CloseHandle(fd);
#else
close(fd);
#endif
// TODO: Store ICC profile in an appropriate place in the image
storeColorProfileInMetadata();
if (observer)
{
observer->progressInfo(m_image, 1.0);
}
imageSetAttribute(QLatin1String("savedformat"), QLatin1String("PGF"));
saveMetadata(filePath);
return true;
}
catch (IOException& e)
{
int err = e.error;
if (err >= AppError)
{
err -= AppError;
}
qCWarning(DIGIKAM_DIMG_LOG_PGF) << "Error: Opening and saving PGF image failed (" << err << ")!";
#ifdef WIN32
CloseHandle(fd);
#else
close(fd);
#endif
return false;
}
return true;
}
//-----------------------------------------------------------------------------
//Function Name : TInt SearchSymbolByLoadordering(TE32ExpSymInfoHdr* symInfoHeader
// , char* aFileName, const char* aName,
// RPointerArray<TE32ExpSymInfoHdr>& aSearchedDlls,
// void*& aSymAddress)
//Description : To search for symbol named name in statically dependent dll
// on aSymInfoHeader, it may be belonging to EXE or a DLL, also
// dependencies of dependencies using Load-ordering. It also sets
// valid address in aSymAddress if name found, and all sll it searched in
// aSearchedDlls param.
//Return Value : KErrNone if symbol found otherwise system wide error codes.
//-----------------------------------------------------------------------------
TInt SearchSymbolByLoadordering(const TE32ExpSymInfoHdr* symInfoHeader, const char* aFileName,
const char* aName,
RPointerArray<TE32ExpSymInfoHdr>& aSearchedDlls,
void*& aSymAddress)
{
//This is used as stack for Load-ordering or Depthfirst search.
RArray<TImageData> dependentDllStack;
//here on emulator we need two things one is Name to find symbol in that list,
//second is TE32ExpSymInfoHdr to find dependencies
TImageData imageData((char*)aFileName, (TE32ExpSymInfoHdr*)symInfoHeader);
aSymAddress = NULL;
//Add exe on the stack
TInt err = dependentDllStack.Append(imageData);
if ( KErrNone != err )
{
dependentDllStack.Close();
return KErrNoMemory;
}
TE32ExpSymInfoHdr* tempSymInfoHeader = NULL;
TInt lastIdx = 0;
char* curDll = NULL;
char* dependentDll = NULL;
HMODULE handleToDll = NULL;
TPtrC8 tempPtr;
TBuf<KMaxFileName> dependentfileName;
//Retunn address would be stored in this
void* symAddr = NULL;
//user to maintain load ordering
RArray<TImageData> curDependentDll;
TImageData tempImageData;
//Depth First search for Load-ordering.
while ( lastIdx >= 0 )
{
//Take first dll on the stack i.e. topmost
imageData = dependentDllStack[lastIdx];
symInfoHeader = imageData.iSymInfoHeader;
//Remove from stack
dependentDllStack.Remove(lastIdx);
if(!symInfoHeader)
{
//skip non-std binaries...
lastIdx = dependentDllStack.Count() - 1;
continue;
}
curDll = imageData.iFileName;
tempPtr.Set((unsigned char*)curDll, strlen(curDll));
dependentfileName.Copy(tempPtr);
TParsePtr pParser(dependentfileName);
dependentfileName = pParser.NameAndExt();
//Search in this dll's symbol table
handleToDll = Emulator::GetModuleHandle(dependentfileName.PtrZ());
symAddr = Emulator::GetProcAddress(handleToDll,aName);
//Check if Symbol is found
if( symAddr )
{
dependentDllStack.Close();
aSymAddress = symAddr;
return KErrNone;
}
//Add this dll to list of searched dlls
err = aSearchedDlls.Append(symInfoHeader);
if ( KErrNone != err )
{
dependentDllStack.Close();
return KErrNoMemory;
}
dependentDll = (char*) symInfoHeader + sizeof(TE32ExpSymInfoHdr);
//if this image is an exe - the these would be some symbols
if ( symInfoHeader->iSymCount )
{//skip all symbol addresse
char* curSymbolStr = dependentDll + (KFourByteOffset * symInfoHeader->iSymCount);
//skip all symbol names
for (TInt i = 0; i < symInfoHeader->iSymCount; ++i )
{
curSymbolStr += strlen(curSymbolStr) + 1;
}
//initialise first dependent dll name
dependentDll = curSymbolStr;
}
//Store names of all dependent dlls of current dll/exe store there name in
//curDependentDll. This is done to maintain load ordering.
for (TInt i = 0; i < symInfoHeader->iDllCount; ++i)
{
tempPtr.Set((unsigned char*)dependentDll, strlen(dependentDll));
dependentfileName.Copy(tempPtr);
handleToDll = Emulator::GetModuleHandle(dependentfileName.PtrZ());
Emulator::TModule aModule((HINSTANCE)handleToDll);
tempSymInfoHeader = (TE32ExpSymInfoHdr*)aModule.Section(KWin32SectionName_NmdExpData);
if ( tempSymInfoHeader && aSearchedDlls.Find(tempSymInfoHeader) == KErrNotFound )
{
tempImageData.iFileName = dependentDll;
tempImageData.iSymInfoHeader = tempSymInfoHeader;
err = curDependentDll.Append(tempImageData);
if ( KErrNone != err )
{
dependentDllStack.Close();
curDependentDll.Close();
return KErrNoMemory;
}
}
//advance to next dependent dll
dependentDll += tempPtr.Length() + 1;
}
//add in load order to dependentDllStack
for (TInt i = curDependentDll.Count() - 1; i >= 0; --i)
{
err = dependentDllStack.Append(curDependentDll[i]);
if ( KErrNone != err )
{
dependentDllStack.Close();
curDependentDll.Close();
return KErrNoMemory;
}
}
curDependentDll.Close();
lastIdx = dependentDllStack.Count() - 1;
}
dependentDllStack.Close();
return KErrNotFound;
}
// Main interface with NVTT
void NVTTProcessor::process( osg::Image& image, nvtt::Format format, bool generateMipMap, bool resizeToPowerOfTwo, CompressionMethod method, CompressionQuality quality)
{
// Fill input options
nvtt::InputOptions inputOptions;
inputOptions.setTextureLayout(nvtt::TextureType_2D, image.s(), image.t() );
inputOptions.setNormalMap(false);
inputOptions.setConvertToNormalMap(false);
inputOptions.setGamma(2.2f, 2.2f);
inputOptions.setNormalizeMipmaps(false);
inputOptions.setWrapMode(nvtt::WrapMode_Clamp);
if (resizeToPowerOfTwo)
{
inputOptions.setRoundMode(nvtt::RoundMode_ToNearestPowerOfTwo);
}
inputOptions.setMipmapGeneration(generateMipMap);
if (image.getPixelFormat() == GL_RGBA)
{
inputOptions.setAlphaMode( nvtt::AlphaMode_Transparency );
}
else
{
inputOptions.setAlphaMode( nvtt::AlphaMode_None );
}
std::vector<unsigned char> imageData( image.s() * image.t() * 4 );
if (image.getPixelFormat() == GL_RGB)
{
convertRGBToBGRA( imageData, image );
}
else
{
convertRGBAToBGRA( imageData, image );
}
inputOptions.setMipmapData(&imageData[0],image.s(),image.t());
// Fill compression options
nvtt::CompressionOptions compressionOptions;
switch(quality)
{
case FASTEST:
compressionOptions.setQuality( nvtt::Quality_Fastest );
break;
case NORMAL:
compressionOptions.setQuality( nvtt::Quality_Normal );
break;
case PRODUCTION:
compressionOptions.setQuality( nvtt::Quality_Production);
break;
case HIGHEST:
compressionOptions.setQuality( nvtt::Quality_Highest);
break;
}
compressionOptions.setFormat( format );
//compressionOptions.setQuantization(false,false,false);
if (format == nvtt::Format_RGBA)
{
if (image.getPixelFormat() == GL_RGB)
{
compressionOptions.setPixelFormat(24,0xff,0xff00,0xff0000,0);
}
else
{
compressionOptions.setPixelFormat(32,0xff,0xff00,0xff0000,0xff000000);
}
}
// Handler
OSGImageOutputHandler outputHandler(format,image.getPixelFormat() == GL_RGB);
VPBErrorHandler errorHandler;
// Fill output options
nvtt::OutputOptions outputOptions;
outputOptions.setOutputHandler(&outputHandler);
outputOptions.setErrorHandler(&errorHandler);
outputOptions.setOutputHeader(false);
// Process the compression now
nvtt::Compressor compressor;
if(method == USE_GPU)
{
compressor.enableCudaAcceleration(true);
if(!compressor.isCudaAccelerationEnabled())
{
OSG_WARN<< "CUDA acceleration was enabled but it is not available. CPU will be used."<<std::endl;
}
}
else
{
compressor.enableCudaAcceleration(false);
}
compressor.process(inputOptions,compressionOptions,outputOptions);
outputHandler.assignImage(image);
}
virtual bool writePng(const char* filename) const
{
ScopedDataPng imageData(im_);
return writeScopedData(filename, imageData);
}
ImageExtent ImageDataObject::extent()
{
assert(ImageExtent(m_extent) == ImageExtent(imageData().GetExtent()));
return ImageExtent(m_extent);
}
KisImageBuilder_Result PSDLoader::decode(const KUrl& uri)
{
// open the file
QFile f(uri.toLocalFile());
if (!f.exists()) {
return KisImageBuilder_RESULT_NOT_EXIST;
}
if (!f.open(QIODevice::ReadOnly)) {
return KisImageBuilder_RESULT_FAILURE;
}
dbgFile << "pos:" << f.pos();
PSDHeader header;
if (!header.read(&f)) {
dbgFile << "failed reading header: " << header.error;
return KisImageBuilder_RESULT_FAILURE;
}
dbgFile << header;
dbgFile << "Read header. pos:" << f.pos();
PSDColorModeBlock colorModeBlock(header.colormode);
if (!colorModeBlock.read(&f)) {
dbgFile << "failed reading colormode block: " << colorModeBlock.error;
return KisImageBuilder_RESULT_FAILURE;
}
dbgFile << "Read color mode block. pos:" << f.pos();
PSDResourceSection resourceSection;
if (!resourceSection.read(&f)) {
dbgFile << "failed reading resource section: " << resourceSection.error;
return KisImageBuilder_RESULT_FAILURE;
}
dbgFile << "Read resource section. pos:" << f.pos();
PSDLayerSection layerSection(header);
if (!layerSection.read(&f)) {
dbgFile << "failed reading layer section: " << layerSection.error;
return KisImageBuilder_RESULT_FAILURE;
}
// XXX: add all the image resource blocks as annotations to the image
dbgFile << "Read layer section. " << layerSection.nLayers << "layers. pos:" << f.pos();
// Get the right colorspace
QPair<QString, QString> colorSpaceId = psd_colormode_to_colormodelid(header.colormode,
header.channelDepth);
if (colorSpaceId.first.isNull()) return KisImageBuilder_RESULT_UNSUPPORTED_COLORSPACE;
// Get the icc profile!
const KoColorProfile* profile = 0;
if (resourceSection.resources.contains(PSDResourceSection::ICC_PROFILE)) {
ICC_PROFILE_1039 *iccProfileData = dynamic_cast<ICC_PROFILE_1039*>(resourceSection.resources[PSDResourceSection::ICC_PROFILE]->resource);
if (iccProfileData ) {
profile = KoColorSpaceRegistry::instance()->createColorProfile(colorSpaceId.first,
colorSpaceId.second,
iccProfileData->icc);
dbgFile << "Loaded ICC profile" << profile->name();
}
}
// Create the colorspace
const KoColorSpace* cs = KoColorSpaceRegistry::instance()->colorSpace(colorSpaceId.first, colorSpaceId.second, profile);
if (!cs) {
return KisImageBuilder_RESULT_UNSUPPORTED_COLORSPACE;
}
// Creating the KisImageWSP
m_image = new KisImage(m_doc->createUndoStore(), header.width, header.height, cs, "built image");
Q_CHECK_PTR(m_image);
m_image->lock();
// set the correct resolution
if (resourceSection.resources.contains(PSDResourceSection::RESN_INFO)) {
RESN_INFO_1005 *resInfo = dynamic_cast<RESN_INFO_1005*>(resourceSection.resources[PSDResourceSection::RESN_INFO]->resource);
if (resInfo) {
m_image->setResolution(POINT_TO_INCH(resInfo->hRes), POINT_TO_INCH(resInfo->vRes));
// let's skip the unit for now; we can only set that on the KoDocument, and krita doesn't use it.
}
}
// Preserve the duotone colormode block for saving back to psd
if (header.colormode == DuoTone) {
KisAnnotationSP annotation = new KisAnnotation("DuotoneColormodeBlock",
i18n("Duotone Colormode Block"),
colorModeBlock.data);
m_image->addAnnotation(annotation);
}
// read the projection into our single layer
if (layerSection.nLayers == 0) {
dbgFile << "Position" << f.pos() << "Going to read the projection into the first layer, which Photoshop calls 'Background'";
KisPaintLayerSP layer = new KisPaintLayer(m_image, i18n("Background"), OPACITY_OPAQUE_U8);
KisTransaction("", layer -> paintDevice());
PSDImageData imageData(&header);
imageData.read(&f, layer->paintDevice());
//readLayerData(&f, layer->paintDevice(), f.pos(), QRect(0, 0, header.width, header.height));
m_image->addNode(layer, m_image->rootLayer());
}
else {
// read the channels for the various layers
for(int i = 0; i < layerSection.nLayers; ++i) {
// XXX: work out the group layer structure in Photoshop, as well as the adjustment layers
PSDLayerRecord* layerRecord = layerSection.layers.at(i);
dbgFile << "Going to read channels for layer" << i << layerRecord->layerName;
KisPaintLayerSP layer = new KisPaintLayer(m_image, layerRecord->layerName, layerRecord->opacity);
layer->setCompositeOp(psd_blendmode_to_composite_op(layerRecord->blendModeKey));
if (!layerRecord->readPixelData(&f, layer->paintDevice())) {
dbgFile << "failed reading channels for layer: " << layerRecord->layerName << layerRecord->error;
return KisImageBuilder_RESULT_FAILURE;
}
m_image->addNode(layer, m_image->rootLayer());
layer->setVisible(layerRecord->visible);
}
}
m_image->unlock();
return KisImageBuilder_RESULT_OK;
}
bool JP2KLoader::save(const QString& filePath, DImgLoaderObserver* observer)
{
FILE* file = fopen(QFile::encodeName(filePath), "wb");
if (!file)
{
return false;
}
fclose(file);
// -------------------------------------------------------------------
// Initialize JPEG 2000 API.
register long i, x, y;
unsigned long number_components;
jas_image_t* jp2_image = 0;
jas_stream_t* jp2_stream = 0;
jas_matrix_t* pixels[4];
jas_image_cmptparm_t component_info[4];
int init = jas_init();
if (init != 0)
{
kDebug() << "Unable to init JPEG2000 decoder";
return false;
}
jp2_stream = jas_stream_fopen(QFile::encodeName(filePath), "wb");
if (jp2_stream == 0)
{
kDebug() << "Unable to open JPEG2000 stream";
return false;
}
number_components = imageHasAlpha() ? 4 : 3;
for (i = 0 ; i < (long)number_components ; ++i)
{
component_info[i].tlx = 0;
component_info[i].tly = 0;
component_info[i].hstep = 1;
component_info[i].vstep = 1;
component_info[i].width = imageWidth();
component_info[i].height = imageHeight();
component_info[i].prec = imageBitsDepth();
component_info[i].sgnd = false;
}
jp2_image = jas_image_create(number_components, component_info, JAS_CLRSPC_UNKNOWN);
if (jp2_image == 0)
{
jas_stream_close(jp2_stream);
kDebug() << "Unable to create JPEG2000 image";
return false;
}
if (observer)
{
observer->progressInfo(m_image, 0.1F);
}
// -------------------------------------------------------------------
// Check color space.
if (number_components >= 3 ) // RGB & RGBA
{
// Alpha Channel
if (number_components == 4 )
{
jas_image_setcmpttype(jp2_image, 3, JAS_IMAGE_CT_OPACITY);
}
jas_image_setclrspc(jp2_image, JAS_CLRSPC_SRGB);
jas_image_setcmpttype(jp2_image, 0, JAS_IMAGE_CT_COLOR(JAS_CLRSPC_CHANIND_RGB_R));
jas_image_setcmpttype(jp2_image, 1, JAS_IMAGE_CT_COLOR(JAS_CLRSPC_CHANIND_RGB_G));
jas_image_setcmpttype(jp2_image, 2, JAS_IMAGE_CT_COLOR(JAS_CLRSPC_CHANIND_RGB_B));
}
// -------------------------------------------------------------------
// Set ICC color profile.
// FIXME : doesn't work yet!
jas_cmprof_t* cm_profile = 0;
jas_iccprof_t* icc_profile = 0;
QByteArray profile_rawdata = m_image->getIccProfile().data();
icc_profile = jas_iccprof_createfrombuf((uchar*)profile_rawdata.data(), profile_rawdata.size());
if (icc_profile != 0)
{
cm_profile = jas_cmprof_createfromiccprof(icc_profile);
if (cm_profile != 0)
{
jas_image_setcmprof(jp2_image, cm_profile);
}
}
// -------------------------------------------------------------------
// Convert to JPEG 2000 pixels.
for (i = 0 ; i < (long)number_components ; ++i)
{
pixels[i] = jas_matrix_create(1, (unsigned int)imageWidth());
if (pixels[i] == 0)
{
for (x = 0 ; x < i ; ++x)
{
jas_matrix_destroy(pixels[x]);
}
jas_image_destroy(jp2_image);
kDebug() << "Error encoding JPEG2000 image data : Memory Allocation Failed";
return false;
}
}
unsigned char* data = imageData();
unsigned char* pixel;
unsigned short r, g, b, a=0;
uint checkpoint = 0;
for (y = 0 ; y < (long)imageHeight() ; ++y)
{
if (observer && y == (long)checkpoint)
{
checkpoint += granularity(observer, imageHeight(), 0.8F);
if (!observer->continueQuery(m_image))
{
jas_image_destroy(jp2_image);
for (i = 0 ; i < (long)number_components ; ++i)
{
jas_matrix_destroy(pixels[i]);
}
jas_cleanup();
return false;
}
observer->progressInfo(m_image, 0.1 + (0.8 * ( ((float)y)/((float)imageHeight()) )));
}
for (x = 0 ; x < (long)imageWidth() ; ++x)
{
pixel = &data[((y * imageWidth()) + x) * imageBytesDepth()];
if ( imageSixteenBit() ) // 16 bits image.
{
b = (unsigned short)(pixel[0]+256*pixel[1]);
g = (unsigned short)(pixel[2]+256*pixel[3]);
r = (unsigned short)(pixel[4]+256*pixel[5]);
if (imageHasAlpha())
{
a = (unsigned short)(pixel[6]+256*pixel[7]);
}
}
else // 8 bits image.
{
b = (unsigned short)pixel[0];
g = (unsigned short)pixel[1];
r = (unsigned short)pixel[2];
if (imageHasAlpha())
{
a = (unsigned short)(pixel[3]);
}
}
jas_matrix_setv(pixels[0], x, r);
jas_matrix_setv(pixels[1], x, g);
jas_matrix_setv(pixels[2], x, b);
if (number_components > 3)
{
jas_matrix_setv(pixels[3], x, a);
}
}
for (i = 0 ; i < (long)number_components ; ++i)
{
int ret = jas_image_writecmpt(jp2_image, (short) i, 0, (unsigned int)y,
(unsigned int)imageWidth(), 1, pixels[i]);
if (ret != 0)
{
kDebug() << "Error encoding JPEG2000 image data";
jas_image_destroy(jp2_image);
for (i = 0 ; i < (long)number_components ; ++i)
{
jas_matrix_destroy(pixels[i]);
}
jas_cleanup();
return false;
}
}
}
QVariant qualityAttr = imageGetAttribute("quality");
int quality = qualityAttr.isValid() ? qualityAttr.toInt() : 90;
if (quality < 0)
{
quality = 90;
}
if (quality > 100)
{
quality = 100;
}
QString rate;
QTextStream ts( &rate, QIODevice::WriteOnly );
// NOTE: to have a lossless compression use quality=100.
// jp2_encode()::optstr:
// - rate=#B => the resulting file size is about # bytes
// - rate=0.0 .. 1.0 => the resulting file size is about the factor times
// the uncompressed size
ts << "rate=" << ( quality / 100.0F );
kDebug() << "JPEG2000 quality: " << quality;
kDebug() << "JPEG2000 " << rate;
int ret = jp2_encode(jp2_image, jp2_stream, rate.toUtf8().data());
if (ret != 0)
{
kDebug() << "Unable to encode JPEG2000 image";
jas_image_destroy(jp2_image);
jas_stream_close(jp2_stream);
for (i = 0 ; i < (long)number_components ; ++i)
{
jas_matrix_destroy(pixels[i]);
}
jas_cleanup();
return false;
}
if (observer)
{
observer->progressInfo(m_image, 1.0);
}
imageSetAttribute("savedformat", "JP2K");
saveMetadata(filePath);
jas_image_destroy(jp2_image);
jas_stream_close(jp2_stream);
for (i = 0 ; i < (long)number_components ; ++i)
{
jas_matrix_destroy(pixels[i]);
}
jas_cleanup();
return true;
}
int main(void) {
GLFWwindow* window;
glfwSetErrorCallback(error_callback);
if (!glfwInit()) {
exit(EXIT_FAILURE);
}
glfwWindowHint(GLFW_CONTEXT_VERSION_MAJOR, 3);
glfwWindowHint(GLFW_CONTEXT_VERSION_MINOR, 2);
glfwWindowHint(GLFW_OPENGL_FORWARD_COMPAT, GL_TRUE);
glfwWindowHint(GLFW_OPENGL_PROFILE, GLFW_OPENGL_CORE_PROFILE);
glfwWindowHint(GLFW_SRGB_CAPABLE, GL_TRUE);
window = glfwCreateWindow(kWidth, kHeight, "Simple example", NULL, NULL);
if (!window) {
glfwTerminate();
exit(EXIT_FAILURE);
}
glfwMakeContextCurrent(window);
init_skia(kWidth, kHeight);
SkAutoTUnref<SkImage> atlas;
SkRSXform xform[kGrid*kGrid+1];
SkRect tex[kGrid*kGrid+1];
WallTimer timer;
float times[32];
int currentTime;
SkAutoTUnref<SkData> imageData(SkData::NewFromFileName("ship.png"));
atlas.reset(SkImage::NewFromEncoded(imageData));
if (!atlas) {
SkDebugf("\nCould not decode file ship.png\n");
cleanup_skia();
glfwDestroyWindow(window);
glfwTerminate();
exit(EXIT_FAILURE);
}
SkScalar anchorX = atlas->width()*0.5f;
SkScalar anchorY = atlas->height()*0.5f;
int currIndex = 0;
for (int x = 0; x < kGrid; x++) {
for (int y = 0; y < kGrid; y++) {
float xPos = (x / (kGrid - 1.0)) * kWidth;
float yPos = (y / (kGrid - 1.0)) * kWidth;
tex[currIndex] = SkRect::MakeLTRB(0.0f, 0.0f, atlas->width(), atlas->height());
xform[currIndex] = SkRSXform::MakeFromRadians(2.0f, SK_ScalarPI*0.5f,
xPos, yPos, anchorX, anchorY);
currIndex++;
}
}
tex[currIndex] = SkRect::MakeLTRB(0.0f, 0.0f, atlas->width(), atlas->height());
xform[currIndex] = SkRSXform::MakeFromRadians(2.0f, SK_ScalarPI*0.5f,
kWidth*0.5f, kHeight*0.5f, anchorX, anchorY);
currentTime = 0;
glfwSwapInterval(1);
glfwSetKeyCallback(window, key_callback);
// Draw to the surface via its SkCanvas.
SkCanvas* canvas = sSurface->getCanvas(); // We don't manage this pointer's lifetime.
SkPaint paint;
paint.setFilterQuality(kLow_SkFilterQuality);
paint.setColor(SK_ColorWHITE);
paint.setTextSize(15.0f);
while (!glfwWindowShouldClose(window)) {
const float kCosDiff = 0.99984769515f;
const float kSinDiff = 0.01745240643f;
timer.start();
glfwPollEvents();
float meanTime = 0.0f;
for (int i = 0; i < 32; ++i) {
meanTime += times[i];
}
meanTime /= 32.f;
char outString[64];
float fps = 1000.f/meanTime;
sprintf(outString, "fps: %f ms: %f", fps, meanTime);
for (int i = 0; i < kGrid*kGrid+1; ++i) {
SkScalar c = xform[i].fSCos;
SkScalar s = xform[i].fSSin;
SkScalar dx = c*anchorX - s*anchorY;
SkScalar dy = s*anchorX + c*anchorY;
xform[i].fSCos = kCosDiff*c - kSinDiff*s;
xform[i].fSSin = kSinDiff*c + kCosDiff*s;
dx -= xform[i].fSCos*anchorX - xform[i].fSSin*anchorY;
dy -= xform[i].fSSin*anchorX + xform[i].fSCos*anchorY;
xform[i].fTx += dx;
xform[i].fTy += dy;
}
canvas->clear(SK_ColorBLACK);
canvas->drawAtlas(atlas, xform, tex, nullptr, kGrid*kGrid+1, SkXfermode::kSrcOver_Mode,
nullptr, &paint);
canvas->drawText(outString, strlen(outString), 100.f, 100.f, paint);
canvas->flush();
timer.end();
times[currentTime] = (float)(timer.fWall);
currentTime = (currentTime + 1) & 0x1f;
glfwSwapBuffers(window);
}
cleanup_skia();
glfwDestroyWindow(window);
glfwTerminate();
exit(EXIT_SUCCESS);
}
bool JP2KLoader::load(const QString& filePath, DImgLoaderObserver* observer)
{
readMetadata(filePath, DImg::JPEG);
FILE* file = fopen(QFile::encodeName(filePath), "rb");
if (!file)
{
loadingFailed();
return false;
}
unsigned char header[9];
if (fread(&header, 9, 1, file) != 1)
{
fclose(file);
loadingFailed();
return false;
}
unsigned char jp2ID[5] = { 0x6A, 0x50, 0x20, 0x20, 0x0D, };
unsigned char jpcID[2] = { 0xFF, 0x4F };
if (memcmp(&header[4], &jp2ID, 5) != 0 &&
memcmp(&header, &jpcID, 2) != 0)
{
// not a jpeg2000 file
fclose(file);
loadingFailed();
return false;
}
fclose(file);
imageSetAttribute("format", "JP2K");
if (!(m_loadFlags & LoadImageData) && !(m_loadFlags & LoadICCData))
{
// libjasper will load the full image in memory already when calling jas_image_decode.
// This is bad when scanning. See bugs 215458 and 195583.
//FIXME: Use Exiv2 or OpenJPEG to extract this info
DMetadata metadata(filePath);
QSize size = metadata.getImageDimensions();
if (size.isValid())
{
imageWidth() = size.width();
imageHeight() = size.height();
}
return true;
}
// -------------------------------------------------------------------
// Initialize JPEG 2000 API.
register long i, x, y;
int components[4];
unsigned int maximum_component_depth, scale[4], x_step[4], y_step[4];
unsigned long number_components;
jas_image_t* jp2_image = 0;
jas_stream_t* jp2_stream = 0;
jas_matrix_t* pixels[4];
int init = jas_init();
if (init != 0)
{
kDebug() << "Unable to init JPEG2000 decoder";
loadingFailed();
return false;
}
jp2_stream = jas_stream_fopen(QFile::encodeName(filePath), "rb");
if (jp2_stream == 0)
{
kDebug() << "Unable to open JPEG2000 stream";
loadingFailed();
return false;
}
jp2_image = jas_image_decode(jp2_stream, -1, 0);
if (jp2_image == 0)
{
jas_stream_close(jp2_stream);
kDebug() << "Unable to decode JPEG2000 image";
loadingFailed();
return false;
}
jas_stream_close(jp2_stream);
// some pseudo-progress
if (observer)
{
observer->progressInfo(m_image, 0.1F);
}
// -------------------------------------------------------------------
// Check color space.
int colorModel;
switch (jas_clrspc_fam(jas_image_clrspc(jp2_image)))
{
case JAS_CLRSPC_FAM_RGB:
{
components[0] = jas_image_getcmptbytype(jp2_image, JAS_IMAGE_CT_RGB_R);
components[1] = jas_image_getcmptbytype(jp2_image, JAS_IMAGE_CT_RGB_G);
components[2] = jas_image_getcmptbytype(jp2_image, JAS_IMAGE_CT_RGB_B);
if ((components[0] < 0) || (components[1] < 0) || (components[2] < 0))
{
jas_image_destroy(jp2_image);
kDebug() << "Error parsing JPEG2000 image : Missing Image Channel";
loadingFailed();
return false;
}
number_components = 3;
components[3] = jas_image_getcmptbytype(jp2_image, 3);
if (components[3] > 0)
{
m_hasAlpha = true;
++number_components;
}
colorModel = DImg::RGB;
break;
}
case JAS_CLRSPC_FAM_GRAY:
{
components[0] = jas_image_getcmptbytype(jp2_image, JAS_IMAGE_CT_GRAY_Y);
if (components[0] < 0)
{
jas_image_destroy(jp2_image);
kDebug() << "Error parsing JP2000 image : Missing Image Channel";
loadingFailed();
return false;
}
number_components = 1;
colorModel = DImg::GRAYSCALE;
break;
}
case JAS_CLRSPC_FAM_YCBCR:
{
components[0] = jas_image_getcmptbytype(jp2_image, JAS_IMAGE_CT_YCBCR_Y);
components[1] = jas_image_getcmptbytype(jp2_image, JAS_IMAGE_CT_YCBCR_CB);
components[2] = jas_image_getcmptbytype(jp2_image, JAS_IMAGE_CT_YCBCR_CR);
if ((components[0] < 0) || (components[1] < 0) || (components[2] < 0))
{
jas_image_destroy(jp2_image);
kDebug() << "Error parsing JP2000 image : Missing Image Channel";
loadingFailed();
return false;
}
number_components = 3;
components[3] = jas_image_getcmptbytype(jp2_image, JAS_IMAGE_CT_UNKNOWN);
if (components[3] > 0)
{
m_hasAlpha = true;
++number_components;
}
// FIXME : image->colorspace=YCbCrColorspace;
colorModel = DImg::YCBCR;
break;
}
default:
{
jas_image_destroy(jp2_image);
kDebug() << "Error parsing JP2000 image : Colorspace Model Is Not Supported";
loadingFailed();
return false;
}
}
// -------------------------------------------------------------------
// Check image geometry.
imageWidth() = jas_image_width(jp2_image);
imageHeight() = jas_image_height(jp2_image);
for (i = 0; i < (long)number_components; ++i)
{
if ((((jas_image_cmptwidth(jp2_image, components[i])*
jas_image_cmpthstep(jp2_image, components[i])) != (long)imageWidth())) ||
(((jas_image_cmptheight(jp2_image, components[i])*
jas_image_cmptvstep(jp2_image, components[i])) != (long)imageHeight())) ||
(jas_image_cmpttlx(jp2_image, components[i]) != 0) ||
(jas_image_cmpttly(jp2_image, components[i]) != 0) ||
(jas_image_cmptsgnd(jp2_image, components[i]) != false))
{
jas_image_destroy(jp2_image);
kDebug() << "Error parsing JPEG2000 image : Irregular Channel Geometry Not Supported";
loadingFailed();
return false;
}
x_step[i] = jas_image_cmpthstep(jp2_image, components[i]);
y_step[i] = jas_image_cmptvstep(jp2_image, components[i]);
}
// -------------------------------------------------------------------
// Get image format.
m_hasAlpha = number_components > 3;
maximum_component_depth = 0;
for (i = 0; i < (long)number_components; ++i)
{
maximum_component_depth = qMax((long)jas_image_cmptprec(jp2_image,components[i]),
(long)maximum_component_depth);
pixels[i] = jas_matrix_create(1, ((unsigned int)imageWidth())/x_step[i]);
if (!pixels[i])
{
jas_image_destroy(jp2_image);
kDebug() << "Error decoding JPEG2000 image data : Memory Allocation Failed";
loadingFailed();
return false;
}
}
if (maximum_component_depth > 8)
{
m_sixteenBit = true;
}
for (i = 0 ; i < (long)number_components ; ++i)
{
scale[i] = 1;
int prec = jas_image_cmptprec(jp2_image, components[i]);
if (m_sixteenBit && prec < 16)
{
scale[i] = (1 << (16 - jas_image_cmptprec(jp2_image, components[i])));
}
}
// -------------------------------------------------------------------
// Get image data.
uchar* data = 0;
if (m_loadFlags & LoadImageData)
{
if (m_sixteenBit) // 16 bits image.
{
data = new_failureTolerant(imageWidth()*imageHeight()*8);
}
else
{
data = new_failureTolerant(imageWidth()*imageHeight()*4);
}
if (!data)
{
kDebug() << "Error decoding JPEG2000 image data : Memory Allocation Failed";
jas_image_destroy(jp2_image);
for (i = 0 ; i < (long)number_components ; ++i)
{
jas_matrix_destroy(pixels[i]);
}
jas_cleanup();
loadingFailed();
return false;
}
uint checkPoint = 0;
uchar* dst = data;
unsigned short* dst16 = (unsigned short*)data;
for (y = 0 ; y < (long)imageHeight() ; ++y)
{
for (i = 0 ; i < (long)number_components; ++i)
{
int ret = jas_image_readcmpt(jp2_image, (short)components[i], 0,
((unsigned int) y) / y_step[i],
((unsigned int) imageWidth()) / x_step[i],
1, pixels[i]);
if (ret != 0)
{
kDebug() << "Error decoding JPEG2000 image data";
delete [] data;
jas_image_destroy(jp2_image);
for (i = 0 ; i < (long)number_components ; ++i)
{
jas_matrix_destroy(pixels[i]);
}
jas_cleanup();
loadingFailed();
return false;
}
}
switch (number_components)
{
case 1: // Grayscale.
{
for (x = 0 ; x < (long)imageWidth() ; ++x)
{
dst[0] = (uchar)(scale[0]*jas_matrix_getv(pixels[0], x/x_step[0]));
dst[1] = dst[0];
dst[2] = dst[0];
dst[3] = 0xFF;
dst += 4;
}
break;
}
case 3: // RGB.
{
if (!m_sixteenBit) // 8 bits image.
{
for (x = 0 ; x < (long)imageWidth() ; ++x)
{
// Blue
dst[0] = (uchar)(scale[2]*jas_matrix_getv(pixels[2], x/x_step[2]));
// Green
dst[1] = (uchar)(scale[1]*jas_matrix_getv(pixels[1], x/x_step[1]));
// Red
dst[2] = (uchar)(scale[0]*jas_matrix_getv(pixels[0], x/x_step[0]));
// Alpha
dst[3] = 0xFF;
dst += 4;
}
}
else // 16 bits image.
{
for (x = 0 ; x < (long)imageWidth() ; ++x)
{
// Blue
dst16[0] = (unsigned short)(scale[2]*jas_matrix_getv(pixels[2], x/x_step[2]));
// Green
dst16[1] = (unsigned short)(scale[1]*jas_matrix_getv(pixels[1], x/x_step[1]));
// Red
dst16[2] = (unsigned short)(scale[0]*jas_matrix_getv(pixels[0], x/x_step[0]));
// Alpha
dst16[3] = 0xFFFF;
dst16 += 4;
}
}
break;
}
case 4: // RGBA.
{
if (!m_sixteenBit) // 8 bits image.
{
for (x = 0 ; x < (long)imageWidth() ; ++x)
{
// Blue
dst[0] = (uchar)(scale[2] * jas_matrix_getv(pixels[2], x/x_step[2]));
// Green
dst[1] = (uchar)(scale[1] * jas_matrix_getv(pixels[1], x/x_step[1]));
// Red
dst[2] = (uchar)(scale[0] * jas_matrix_getv(pixels[0], x/x_step[0]));
// Alpha
dst[3] = (uchar)(scale[3] * jas_matrix_getv(pixels[3], x/x_step[3]));
dst += 4;
}
}
else // 16 bits image.
{
for (x = 0 ; x < (long)imageWidth() ; ++x)
{
// Blue
dst16[0] = (unsigned short)(scale[2]*jas_matrix_getv(pixels[2], x/x_step[2]));
// Green
dst16[1] = (unsigned short)(scale[1]*jas_matrix_getv(pixels[1], x/x_step[1]));
// Red
dst16[2] = (unsigned short)(scale[0]*jas_matrix_getv(pixels[0], x/x_step[0]));
// Alpha
dst16[3] = (unsigned short)(scale[3]*jas_matrix_getv(pixels[3], x/x_step[3]));
dst16 += 4;
}
}
break;
}
}
// use 0-10% and 90-100% for pseudo-progress
if (observer && y >= (long)checkPoint)
{
checkPoint += granularity(observer, y, 0.8F);
if (!observer->continueQuery(m_image))
{
delete [] data;
jas_image_destroy(jp2_image);
for (i = 0 ; i < (long)number_components ; ++i)
{
jas_matrix_destroy(pixels[i]);
}
jas_cleanup();
loadingFailed();
return false;
}
observer->progressInfo(m_image, 0.1 + (0.8 * ( ((float)y)/((float)imageHeight()) )));
}
}
}
// -------------------------------------------------------------------
// Get ICC color profile.
if (m_loadFlags & LoadICCData)
{
jas_iccprof_t* icc_profile = 0;
jas_stream_t* icc_stream = 0;
jas_cmprof_t* cm_profile = 0;
cm_profile = jas_image_cmprof(jp2_image);
if (cm_profile != 0)
{
icc_profile = jas_iccprof_createfromcmprof(cm_profile);
}
if (icc_profile != 0)
{
icc_stream = jas_stream_memopen(NULL, 0);
if (icc_stream != 0)
{
if (jas_iccprof_save(icc_profile, icc_stream) == 0)
{
if (jas_stream_flush(icc_stream) == 0)
{
jas_stream_memobj_t* blob = (jas_stream_memobj_t*) icc_stream->obj_;
QByteArray profile_rawdata;
profile_rawdata.resize(blob->len_);
memcpy(profile_rawdata.data(), blob->buf_, blob->len_);
imageSetIccProfile(profile_rawdata);
jas_stream_close(icc_stream);
}
}
}
}
}
if (observer)
{
observer->progressInfo(m_image, 1.0);
}
imageData() = data;
imageSetAttribute("format", "JP2K");
imageSetAttribute("originalColorModel", colorModel);
imageSetAttribute("originalBitDepth", maximum_component_depth);
imageSetAttribute("originalSize", QSize(imageWidth(), imageHeight()));
jas_image_destroy(jp2_image);
for (i = 0 ; i < (long)number_components ; ++i)
{
jas_matrix_destroy(pixels[i]);
}
jas_cleanup();
return true;
}
QImage WinHelpPicture::LoadDDB(QIODevice &device,
qint64 offset,
size_t size,
const BitmapHeader &hdr)
{
seekFile(device, offset);
if((hdr.getWidth() * hdr.getHeight()) > 100000000)
{
qDebug() << "Image is too large";
QImage errorImg(100, 100, QImage::Format_ARGB32);
QPainter painter;
painter.begin(&errorImg);
painter.fillRect(0, 0, 100, 100, Qt::white);
painter.drawText(10, 10, "Image is too large");
painter.end();
return errorImg;
}
QImage image(hdr.getWidth(), hdr.getHeight(), QImage::Format_ARGB32);
int colorsUsed = hdr.getColorsUsed();
if(colorsUsed == 2)
{
size_t scanlineBytes =
static_cast<size_t>(((hdr.getWidth() + 31) / 32) * 4);
size_t imageSize = scanlineBytes * static_cast<size_t>(hdr.getHeight());
if(imageSize > 0x40000000)
{
throw std::runtime_error("Requested too much memory for 1 bpp DDB");
}
QScopedArrayPointer<quint8> imageData(new quint8[imageSize]);
memset(reinterpret_cast<void *>(imageData.data()), 0, imageSize);
qint64 toRead = static_cast<qint64>(qMin(size, imageSize));
fillBuffer(device, toRead,
reinterpret_cast<void *>(imageData.data()), imageSize);
quint8 masks[] = {
128, 64, 32, 16, 8, 4, 2, 1
};
for (size_t row = 0; row < static_cast<size_t>(hdr.getHeight()); row++)
{
for (size_t col = 0; col < static_cast<size_t>(hdr.getWidth());
col++)
{
if ((imageData[row * scanlineBytes + col /
8] & masks[col % 8]) != 0)
{
image.setPixel(col, hdr.getHeight() - 1 - row,
qRgb(255, 255, 255));
}
else
{
image.setPixel(col, hdr.getHeight() - 1 - row, qRgb(0, 0, 0));
}
}
}
}
else
{
if(colorsUsed == 16)
{
size_t scanlineBytes =
static_cast<size_t>(((hdr.getWidth() * 4 + 31) / 32) * 4);
size_t imageSize = scanlineBytes *
static_cast<size_t>(hdr.getHeight());
if(imageSize > 0x40000000)
{
throw std::runtime_error(
"Requested too much memory for 4 bpp DDB");
}
QScopedArrayPointer<quint8> imageData(new quint8[imageSize]);
memset(reinterpret_cast<void *>(imageData.data()), 0, imageSize);
qint64 toRead = static_cast<qint64>(qMin(size, imageSize));
fillBuffer(device, toRead,
reinterpret_cast<void *>(imageData.data()), imageSize);
for (size_t row = 0; row < static_cast<size_t>(hdr.getHeight());
row++)
{
for (size_t col = 0; col < static_cast<size_t>(hdr.getWidth());
col++)
{
quint8 colorIndex = 0;
if ((col & 1) == 0)
{
colorIndex = imageData[row * scanlineBytes + col / 2];
colorIndex = colorIndex >> 4;
}
else
{
colorIndex =
imageData[row * scanlineBytes + col / 2] & 15;
}
int color = qRound(
(static_cast<qreal>(colorIndex) / 15.0) * 255.0);
image.setPixel(col, hdr.getHeight() - 1 - row,
qRgb(color, color, color));
}
}
ValueRange<> ImageDataObject::scalarRange()
{
return ValueRange<>(imageData().GetScalarRange());
}
void RenderSVGResourceMasker::createMaskImage(MaskerData* maskerData, const SVGMaskElement* maskElement, RenderObject* object)
{
FloatRect objectBoundingBox = object->objectBoundingBox();
// Mask rect clipped with clippingBoundingBox and filterBoundingBox as long as they are present.
maskerData->maskRect = object->repaintRectInLocalCoordinates();
if (maskerData->maskRect.isEmpty()) {
maskerData->emptyMask = true;
return;
}
if (m_maskBoundaries.isEmpty())
calculateMaskContentRepaintRect();
FloatRect repaintRect = m_maskBoundaries;
AffineTransform contextTransform;
// We need to scale repaintRect for objectBoundingBox to get the drawing area.
if (maskElement->maskContentUnits() == SVGUnitTypes::SVG_UNIT_TYPE_OBJECTBOUNDINGBOX) {
contextTransform.scaleNonUniform(objectBoundingBox.width(), objectBoundingBox.height());
FloatPoint contextAdjustment = repaintRect.location();
repaintRect = contextTransform.mapRect(repaintRect);
repaintRect.move(objectBoundingBox.x(), objectBoundingBox.y());
contextTransform.translate(-contextAdjustment.x(), -contextAdjustment.y());
}
repaintRect.intersect(maskerData->maskRect);
maskerData->maskRect = repaintRect;
IntRect maskImageRect = enclosingIntRect(maskerData->maskRect);
maskImageRect.setLocation(IntPoint());
// Don't create ImageBuffers with image size of 0
if (maskImageRect.isEmpty()) {
maskerData->emptyMask = true;
return;
}
// FIXME: This changes color space to linearRGB, the default color space
// for masking operations in SVG. We need a switch for the other color-space
// attribute values sRGB, inherit and auto.
maskerData->maskImage = ImageBuffer::create(maskImageRect.size(), LinearRGB);
if (!maskerData->maskImage)
return;
GraphicsContext* maskImageContext = maskerData->maskImage->context();
ASSERT(maskImageContext);
maskImageContext->save();
if (maskElement->maskContentUnits() == SVGUnitTypes::SVG_UNIT_TYPE_USERSPACEONUSE)
maskImageContext->translate(-maskerData->maskRect.x(), -maskerData->maskRect.y());
maskImageContext->concatCTM(contextTransform);
// draw the content into the ImageBuffer
for (Node* node = maskElement->firstChild(); node; node = node->nextSibling()) {
RenderObject* renderer = node->renderer();
if (!node->isSVGElement() || !static_cast<SVGElement*>(node)->isStyled() || !renderer)
continue;
RenderStyle* style = renderer->style();
if (!style || style->display() == NONE || style->visibility() != VISIBLE)
continue;
renderSubtreeToImage(maskerData->maskImage.get(), renderer);
}
maskImageContext->restore();
// create the luminance mask
RefPtr<ImageData> imageData(maskerData->maskImage->getUnmultipliedImageData(maskImageRect));
CanvasPixelArray* srcPixelArray(imageData->data());
for (unsigned pixelOffset = 0; pixelOffset < srcPixelArray->length(); pixelOffset += 4) {
unsigned char a = srcPixelArray->get(pixelOffset + 3);
if (!a)
continue;
unsigned char r = srcPixelArray->get(pixelOffset);
unsigned char g = srcPixelArray->get(pixelOffset + 1);
unsigned char b = srcPixelArray->get(pixelOffset + 2);
double luma = (r * 0.2125 + g * 0.7154 + b * 0.0721) * ((double)a / 255.0);
srcPixelArray->set(pixelOffset + 3, luma);
}
maskerData->maskImage->putUnmultipliedImageData(imageData.get(), maskImageRect, IntPoint());
}
//-----------------------------------------------------------------------------
//Function Name : void* DlSymByDependencyOrdering(const void* aHandle,
// const char* aName)
//Description : To search for symbol named name in statically dependent dll
// on aSymInfoHeader, is dependencies, also dependencies of
// dependencies using Dependency-ordering.
//Return Value : Valid address if name found otherwise NULL
//-----------------------------------------------------------------------------
void* DlSymByDependencyOrdering(const void* aHandle,const char* aName)
{
//Get 0th ordinal datastructure of dll denoted by handle.
LoadedDlls()->Lock();
TInt idx = LoadedDlls()->Find(aHandle);
//check if handle not found
if ( KErrNotFound == idx )
{
LoadedDlls()->UnLock();
SetError(KDlSymErrBadHandle);
return NULL;
}
TDllEntry& dllEntry = LoadedDlls()->At(idx);
// The below 'if' condition prevents the symbol lookup on non-STDDLL
// Check for the symbol information, if not found
// return with KDlSymErrNoSupport
if( !dllEntry.iSymbolHeader )
{
LoadedDlls()->UnLock();
SetError(KDlSymErrNoSupport);
return NULL;
}
TBuf8<KMaxFileName> fileName;
if(CnvUtfConverter::ConvertFromUnicodeToUtf8(fileName,dllEntry.iLibrary.FileName()) != 0)
{
LoadedDlls()->UnLock();
return NULL;
}
TE32ExpSymInfoHdr* symInfoHeader = dllEntry.iSymbolHeader;
//Queue for using Breadthfirst search / Dependency ordering.
RArray<TImageData> dependentDllQue;
TImageData imageData((char*)fileName.PtrZ(), symInfoHeader);
//add first item in queue
TInt err = dependentDllQue.Append(imageData);
if ( KErrNone != err )
{
LoadedDlls()->UnLock();
dependentDllQue.Close();
SetError(KDlSymErrNoMemory);
return NULL;
}
char* curDll = NULL;
char* dependentDll = NULL;
HMODULE handleToDll = NULL;
TBuf<KMaxFileName> dependentfileName;
TE32ExpSymInfoHdr* tempSymInfoHeader = NULL;
void* symAddr = NULL;
TPtrC8 tempPtr;
//Array of searched dlls. Used to check circular dependency
//this is array of pointer to name of dll in image
RPointerArray<TE32ExpSymInfoHdr> searchedDlls;
//Breath First search for Dependancy ordering.
while(dependentDllQue.Count())
{
imageData = dependentDllQue[0];
curDll = imageData.iFileName;
symInfoHeader = imageData.iSymInfoHeader;
dependentDllQue.Remove(0);
// The below 'if' condition prevents the symbol lookup on dependent non-STDDLL
if(!symInfoHeader)
{
continue;
}
tempPtr.Set((unsigned char*)curDll, strlen(curDll));
dependentfileName.Copy(tempPtr);
TParsePtr pParser(dependentfileName);
dependentfileName = pParser.NameAndExt();
//Search in this dll's symbol table
handleToDll = Emulator::GetModuleHandle(dependentfileName.PtrZ());
symAddr = Emulator::GetProcAddress(handleToDll,aName);
//check if symbol is found
if( symAddr )
{
LoadedDlls()->UnLock();
dependentDllQue.Close();
searchedDlls.Close();
return symAddr;
}
//Insert this to searched list
err = searchedDlls.Append(symInfoHeader);
if ( KErrNone != err )
{
LoadedDlls()->UnLock();
dependentDllQue.Close();
searchedDlls.Close();
SetError(KDlSymErrNoMemory);
return NULL;
}
//Add list of dependencies
dependentDll = (char*) symInfoHeader + sizeof(TE32ExpSymInfoHdr);
//Add at last to make it Queue, needed for Dependency ordering
for (TInt i = 0; i < symInfoHeader->iDllCount; i++)
{
tempPtr.Set((unsigned char*)dependentDll, strlen(dependentDll));
dependentfileName.Copy(tempPtr);
//get i'th dependency
handleToDll = Emulator::GetModuleHandle(dependentfileName.PtrZ());
Emulator::TModule aModule((HINSTANCE)handleToDll);
tempSymInfoHeader = (TE32ExpSymInfoHdr*)aModule.Section(KWin32SectionName_NmdExpData);
//check i'th dependency is OE dll e.i. equal to zero or not
//and also its not already searched
if ( tempSymInfoHeader && searchedDlls.Find(tempSymInfoHeader) == KErrNotFound )
{
imageData.iFileName = dependentDll;
imageData.iSymInfoHeader = tempSymInfoHeader;
err = dependentDllQue.Append(imageData);
if ( KErrNone != err )
{
LoadedDlls()->UnLock();
dependentDllQue.Close();
searchedDlls.Close();
SetError(KDlSymErrNoMemory);
return NULL;
}
}
//advance to next dependent dll
dependentDll += tempPtr.Length() + 1;
}
}
LoadedDlls()->UnLock();
dependentDllQue.Close();
searchedDlls.Close();
//Symbol not found return NULL
SetError(KDlSymErrNotFound);
return NULL;
}
bool QImageLoader::load(const QString& filePath, DImgLoaderObserver* const observer)
{
// Loading is opaque to us. No support for stopping from observer,
// progress info are only pseudo values
QImage image(filePath);
if (observer)
{
observer->progressInfo(m_image, 0.9F);
}
if (image.isNull())
{
kDebug() << "Can not load \"" << filePath << "\" using DImg::QImageLoader!";
loadingFailed();
return false;
}
int colorModel = DImg::COLORMODELUNKNOWN;
int originalDepth = 0;
switch (image.format())
{
case QImage::Format_Invalid:
default:
colorModel = DImg::COLORMODELUNKNOWN;
originalDepth = 0;
break;
case QImage::Format_Mono:
case QImage::Format_MonoLSB:
colorModel = DImg::MONOCHROME;
originalDepth = 1;
break;
case QImage::Format_Indexed8:
colorModel = DImg::INDEXED;
originalDepth = 0;
break;
case QImage::Format_RGB32:
colorModel = DImg::RGB;
originalDepth = 8;
break;
case QImage::Format_ARGB32:
case QImage::Format_ARGB32_Premultiplied:
colorModel = DImg::RGB;
originalDepth = 8;
break;
}
m_hasAlpha = image.hasAlphaChannel();
QImage target = image.convertToFormat(QImage::Format_ARGB32);
uint w = target.width();
uint h = target.height();
uchar* const data = new_failureTolerant(w, h, 4);
if (!data)
{
kDebug() << "Failed to allocate memory for loading" << filePath;
loadingFailed();
return false;
}
uint* sptr = reinterpret_cast<uint*>(target.bits());
uchar* dptr = data;
for (uint i = 0 ; i < w * h ; ++i)
{
dptr[0] = qBlue(*sptr);
dptr[1] = qGreen(*sptr);
dptr[2] = qRed(*sptr);
dptr[3] = qAlpha(*sptr);
dptr += 4;
sptr++;
}
if (observer)
{
observer->progressInfo(m_image, 1.0);
}
imageWidth() = w;
imageHeight() = h;
imageData() = data;
// We considering that PNG is the most representative format of an image loaded by Qt
imageSetAttribute("format", "PNG");
imageSetAttribute("originalColorModel", colorModel);
imageSetAttribute("originalBitDepth", originalDepth);
imageSetAttribute("originalSize", QSize(w, h));
return true;
}
void windowManager::openProject() {
//const QString fileString = "test.out";
const QString fileString =
QFileDialog::getOpenFileName(activeWindow(), tr("Open project"), ".",
"Cstitch files (*.xst)\nAll files (*.*)");
if (fileString.isEmpty()) {
return;
}
QFile inFile(fileString);
inFile.open(QIODevice::ReadOnly);
// the save file starts with xml text, so read that first
QTextStream textInStream(&inFile);
QString inString;
inString = textInStream.readLine() + "\n";
// (A day after the initial release I changed the program name from
// stitch to cstitch, so check for either...)
QRegExp rx("^<(cstitch|stitch) version=");
rx.indexIn(inString);
const QString programName = rx.cap(1);
if (programName != "cstitch" && programName != "stitch") { // uh oh
QMessageBox::critical(NULL, tr("Bad project file"),
tr("Sorry, ") + fileString +
tr(" is not a valid project file ") +
tr("(diagnostic: wrong first line)"));
return;
}
int lineCount = 0;
const int maxLineCount = 100000;
const QString endTag = "</" + programName + ">";
QString thisString = "";
do {
thisString = textInStream.readLine();
inString += thisString + "\n";
++lineCount;
if (lineCount > maxLineCount) {
QMessageBox::critical(NULL, tr("Bad project file"),
tr("Sorry, ") + fileString +
tr(" appears to be corrupted ") +
tr("(diagnostic: bad separator)"));
return;
}
} while (thisString != endTag);
QDomDocument doc;
const bool xmlLoadSuccess = doc.setContent(inString);
if (!xmlLoadSuccess) {
QMessageBox::critical(NULL, tr("Bad project file"),
tr("Sorry, ") + fileString +
tr(" appears to be corrupted ") +
tr("(diagnostic: parse failed)"));
return;
}
// a blank line between the xml and the image
inString += textInStream.readLine() + "\n";
// hide everything except progress meters while we regenerate this project
hideWindows_ = true;
hideWindows();
// how many total images are we restoring?
int imageCount = 1; // one colorChooser image
imageCount += doc.elementsByTagName("color_compare_image").size();
imageCount += doc.elementsByTagName("square_window_image").size();
imageCount += doc.elementsByTagName("pattern_window_image").size();
groupProgressDialog progressMeter(imageCount);
progressMeter.setMinimumDuration(2000);
progressMeter.setWindowModality(Qt::WindowModal);
progressMeter.show();
progressMeter.bumpCount();
altMeter::setGroupMeter(&progressMeter);
// read the image file name
const QString fileName = ::getElementText(doc, "image_name");
// read the project version number
setProjectVersion(::getElementAttribute(doc, "cstitch", "version"));
// now read the binary data image
inFile.seek(inString.length());
QDataStream imageStream(&inFile);
QImage newImage;
imageStream >> newImage;
inFile.seek(inString.length());
QDataStream imageData(&inFile);
QByteArray imageByteArray;
imageData >> imageByteArray;
reset(newImage, imageByteArray, fileName);
//// colorChooser
colorChooser_.window()->setNewImage(newImage);
progressMeter.bumpCount();
//// colorCompare
QDomElement colorCompareElement =
doc.elementsByTagName("color_compare").item(0).toElement();
if (!colorCompareElement.isNull()) {
colorChooser* colorChooserObject = colorChooser_.window();
QDomNodeList compareImagesList(colorCompareElement.
elementsByTagName("color_compare_image"));
for (int i = 0, size = compareImagesList.size(); i < size; ++i) {
QDomElement thisCompareElement(compareImagesList.item(i).toElement());
const int hiddenColorCompareIndex = colorChooserObject->
recreateImage(colorCompareSaver(thisCompareElement));
progressMeter.bumpCount();
//// squareWindow
colorCompare* colorCompareObject = colorCompareWindow_.window();
QDomNodeList squareImagesList(thisCompareElement.
elementsByTagName("square_window_image"));
if (!squareImagesList.isEmpty()) {
for (int ii = 0, iiSize = squareImagesList.size(); ii < iiSize; ++ii) {
QDomElement thisSquareElement(squareImagesList.item(ii).toElement());
const int hiddenSquareImageIndex = colorCompareObject->
recreateImage(squareWindowSaver(thisSquareElement));
progressMeter.bumpCount();
squareWindow* squareWindowObject = squareWindow_.window();
//// patternWindow
// restore this square image's children before restoring its history
// (the children may have their own different histories)
QDomNodeList
patternImageList(thisSquareElement.
elementsByTagName("pattern_window_image"));
if (!patternImageList.isEmpty()) {
for (int iii = 0, iiiSize = patternImageList.size();
iii < iiiSize; ++iii) {
QDomElement thisPatternElement(patternImageList.item(iii).
toElement());
squareWindowObject->
recreatePatternImage(patternWindowSaver(thisPatternElement));
patternWindow_.window()->updateHistory(thisPatternElement);
progressMeter.bumpCount();
}
}
squareWindowObject->updateImageHistory(thisSquareElement);
// if this image was only created so that one of its children could be
// recreated, remove it (its data has already been stored away)
if (hiddenSquareImageIndex != -1) {
squareWindowObject->removeImage(hiddenSquareImageIndex);
}
}
}
// if this image was only created so that one of its children could be
// recreated, remove it (its data has already been stored away)
if (hiddenColorCompareIndex != -1) {
colorCompareObject->removeImage(hiddenColorCompareIndex);
}
}
}
//// restore window wide settings that are independent of a particular image
QDomElement windowGlobals(doc.elementsByTagName("global_settings").
item(0).toElement());
if (colorChooserAction_->isEnabled() && colorChooser_.window()) {
colorChooser_.window()->updateCurrentSettings(windowGlobals);
}
if (colorCompareAction_->isEnabled() && colorCompareWindow_.window()) {
colorCompareWindow_.window()->updateCurrentSettings(windowGlobals);
}
if (squareWindowAction_->isEnabled() && squareWindow_.window()) {
squareWindow_.window()->updateCurrentSettings(windowGlobals);
squareWindow_.window()->checkAllColorLists();
}
if (patternWindowAction_->isEnabled() && patternWindow_.window()) {
patternWindow_.window()->updateCurrentSettings(windowGlobals);
}
// read the image number of colors (before the reset)
const int colorCount = ::getElementText(doc, "color_count").toInt();
originalImageColorCount_ = colorCount;
// call while hideWindows_ (if colorCount wasn't 0 it won't be recalculated)
startOriginalImageColorCount();
hideWindows_ = false;
altMeter::setGroupMeter(NULL);
projectFilename_ = fileString;
setWindowTitles(QFileInfo(projectFilename_).fileName());
setNewWidgetGeometryAndRaise(colorChooser_.window());
}